I am a manufacturer in China focused on sustainable tableware, and I bring you Biodegradable Sugarcane bagasse plate that meets rising demand for eco-friendly catering. From our facility, I supply sturdy, compostable plates made from pressed sugarcane bagasse fibers—perfect for hot foods, grease resistance, and stackable service. The Biodegradable Sugarcane bagasse plate offers reliable performance at commercial scale, whether for airline catering, events, or restaurant take-out. They are BPA-free, microwave-safe, and certified compostable under global standards, helping you meet waste diversion targets. My team offers customization: sizes, printing, branding, packaging, and ODM/OEM solutions tailored to your China and international customers. Working directly with a China-based manufacturer means shorter lead times, flexible MOQs, and competitive pricing. I provide samples, clear certifications, and ongoing technical support to ensure smooth adoption in your supply chain. If you’re seeking sustainable, cost-effective disposable tableware, let’s connect and streamline your procurement today.
Biodegradable sugarcane bagasse plates combine sustainability with high performance, offering global buyers a reliable alternative to single-use plastics. Made from renewable mill residue, these plates are compostable, microwave- and freezer-safe, oil- and leak-resistant, and engineered for consistent strength and presentation. Beyond supplying products, we act as a strategic partner: advising on material selection, custom shapes, printing and packaging to meet retail, foodservice or private-label needs while ensuring regulatory compliance. With integrated manufacturing, strict quality-control labs, scalable production and optimized logistics, procurement teams gain predictable lead times, competitive minimums and transparent cost structures. Collaborative product development, full testing documentation and responsive after-sales support help reduce supply chain risk and accelerate market entry—turning sustainable tableware buying into a seamless, value-driven partnership.
| Metric | Unit / Method | Typical Value / Range | Standard / Source | Notes |
|---|---|---|---|---|
| Product type | — | Molded-fiber disposable plate (single-use dining ware) | Industry descriptions | Suitable for hot and cold food service; single-layer molded form |
| Material composition (typical) | % by dry mass (analysis) | Cellulose 45–55%, Hemicellulose 25–35%, Lignin 10–20%, Ash 2–5% | Agricultural residue analyses (bagasse) | Typical raw bagasse composition after pulping and forming |
| Basis weight | g/m² | 200–400 g/m² (commonly 250–350 for plates) | Manufacturing specifications | Higher basis weight increases rigidity and liquid hold |
| Sheet / wall thickness | mm | 0.8–1.6 mm (typical molded section thickness) | Molding process controls | Geometry influences stacking and strength |
| Heat resistance (short contact) | °C | Up to 100–120°C (brief exposure) | In-house hot-liquid test; industry use cases | Sustained high-temperature liquids may soften; suitable for hot foods |
| Liquid hold time (wet load) | hours (typical) | 2–8 hours (6 hours common for saucy foods) | Practical usage tests | Performance improves with surface treatments (waterproofing via heat-press) |
| Water absorption (Cobb 60s) | g/m² | 30–80 g/m² depending on density and treatment | TAPPI-style water uptake tests | Lower values indicate better short-term liquid resistance |
| Tensile strength (MD / CD) | N (strip test) | MD: 10–30 N · CD: 5–15 N (varies with fiber orientation) | Tensile testing per ISO/TAPPI methods | Design and molding geometry affect effective strength |
| Moisture content (finished) | % (w/w) | 6–10% | Drying control in production | Controlled moisture reduces mold risk in storage |
| pH (surface) | pH units | Approximately 6.0–8.0 (near neutral) | Material surface testing | Neutral pH suitable for food contact after compliance checks |
| Industrial compostability | Weeks to >90% mineralization | 6–12 weeks (industrial composting conditions) | EN 13432, ASTM D6400, ISO 17088 | Time depends on temperature, aeration and particle size |
| Home compostability (typical) | Months | 3–18 months (highly variable by home conditions) | Field/home trials and guidance | May require shredding and warm, active compost heap for faster breakdown |
| Certifications / compliance | — | EN 13432, ASTM D6400, ISO 17088 (common targets) | Accredited lab test reports | Specific product certification depends on formulation and testing |
| Typical manufacturing throughput (large facility) | tons/year (facility) | 10,000–50,000 t/year (typical large-scale plants) | Industry production reports | Scale varies by market demand and plant size |
| End-of-life options | — | Industrial composting, anaerobic digestion; limited curbside recycling applicability | Waste management guidance | Local infrastructure determines recommended route |
| Typical cradle-to-gate GHG benefit vs fossil single-use plastic plates | % CO2e reduction (LCA) | ~40–70% lower CO2e (varies with energy mix and logistics) | Life Cycle Assessment studies (industry averages) | Actual benefit depends on electricity source, transport distances, and end-of-life |
